【论文】

一作/通讯论文

[1]. Yu, J., X. Lu., F. Xiao*, Y. Jin, J. Huang. 2026. Extreme compound events in the seas around China. (Submitted to Communications Earth & Environment)

[2]. Li, K., Q. Wang*, L. Zeng, R. Shi, B. Zhang, F. Xiao*, J. Chen, Y. He, X. Gao. 2026. Diversity of South China Sea Marine Heatwave Trends. Journal of Climate (Accepted).

[3]. He, W., F. Xiao*, C. Qiu, Q. Chunpi, J. Zhao*. 2026. Subsurface-Intensified Marine Heatwaves: A Hidden, Rapidly Warming Threat to Tropical Ocean Ecosystems. Geophysical Research Letters. DOI: 10.1029/2026GL124321

[4]. Lan, M., F. Xiao*, J. Huang, D. Wang*. 2026. Diversity of surface and subsurface marine heatwaves in the South China Sea. Science China Earth Sciences.[5]. Lu, X., F. Xiao*, Z. Wu, J. Huang, Q. Wang*, D. Wang. 2026. A delayed east Asian winter monsoon triggered record-breaking marine heatwaves in the South China Sea during 2023-2024. Journal of Geophysical Research: Oceans. 131(7), e2026JC024234.

[6]. Lin, L., M. Lan, F. Xiao*, Q. Wang, D. Wang, J. Zhao*, W. He. 2026. Co-occurrence of marine heatwaves in the northern South China Sea and drought/wet events in southern China. Journal of Climate. 39(12): 3239–3255.

[7]. Huang, J., F. Xiao*, L. Zeng., B. Chen. 2026. Changes in coastal wind speed in the Northern Hemisphere. Global and Planetary Change, 256,105189.

[8]. Liu, Y., L. Wang*., H. Zhao., H. Deng., F. Xiao*. 2026. Blue-light stimulated luminescence dating of gypsum in loess deposits. Radiation Measurements, 107678

[9]. Wu, Y., J. Shen., D. C. Deane., H. Yu., F. Yu*., X. Wang., Z. Cao., R. Yu., F. Xiao*, T. Wang, Z. Wu.  2025. Future extreme climate events threaten alpine and subalpine woody plants in China. Earth’s Future. 13(1), 10.1029/2024EF005147.

[10]. Xiao, F*., M. Roxy., D. Wang*. 2024. Maritime Continent salinity as a new predictor for South Asian summer monsoon rainfall. Climate Dynamics. 62, 10651–10667.

[11]. Lyu, Y., F. Xiao*, M. Lu, D. Wang, Q. Wu, P. Wang, Y. Zeng. 2024. Increased frequency but decreased intensity of marine heatwaves around coral reef regions in the southern South China Sea. Journal of Geophysical Research: Oceans. 129, e2024JC021235.

[12]. Xiao, F*., Y. Lyu, Q. Wu., L. Lin, Y. Li., H. He., J. Huang. 2023. Enhanced impact of ENSO-independent Indian Ocean SST on summer precipitation over arid Northwest China. Global and Planetary Change, 229, 104250.

[13]. Xiao, F., D. Wang*, Q. Wu., W. Song, L. Zeng, Q. Xie, and Y. Wang. 2022. Discrepant effects of oceanic advection in the evolution of SST anomalies in the South China Sea during El Niño of different intensities. Frontiers in Marine Science, 9, 871458.

[14]. Zhang, Y., F. Xiao*, H. Mei, Y. Li, C. Liu, X. Qiu. 2022. Comprehensive analysis of climate-related comfort in southern China: Climatology, trend, and interannual variations, Urban Climate, 46, 101349.

[15]. Xiao, F., D. Wang*, M. Y. T.  Leung. 2020. Early and extreme warming in the South China Sea during 2015/16: Role of an unusual Indian Ocean dipole event, Geophysical Research Letters, 47(17), e2020GL089936.

[16]. Xiao, F., D. Wang*, L. Yang. 2020. Can tropical Pacific winds enhance the footprint of the Interdecadal Pacific Oscillation on the upper-ocean heat content in the South China Sea? Journal of Climate, 33, 4419–4437.

[17]. Xiao, F*., Z. Wu, Y. Lyu, and Y. Zhang. 2020. Abnormal Strong Upwelling the Coast of Southeast Vietnam in the Late Summer of 2016: A Comparison with the Case in 1998, Atmosphere, 11, 940.

[18]. Xiao, F., D. Wang, L. Zeng*, Q. Liu, and W. Zhou. 2019. Contrasting changes in the sea surface temperature and upper ocean heat content in the South China Sea during recent decades. Climate Dynamics, 53, 1597–1612.

[19]. Xiao, F., L. Zeng, Q. Liu, W. Zhou, and D. Wang*. 2018. Extreme subsurface warm events in the South China Sea during 1998/99 and 2006/07: Observations and mechanisms, Climate Dynamics, 50:115–128.

[20]. Xiao, F., H. Jiang*, B. Wu, H. Wang, and X. Li. 2014. The leading correlation of the winter Aleutian Low with surface air temperature during the subsequent summer over the Arctic and its possible mechanism, Chinese Science Bulletin, 59(9), 904–912.

[21]. 蓝铭，肖福安*, 黄杰珊, 王东晓*. 2026. 南海表层和次表层海洋热浪的多样性. 中国科学地球科学. (已接收，待发表)

[22]. 肖福安，王东晓*. 2025. 中国南海热、盐多尺度变化及其气候和生态效应研究进展. 气象学报. 83(4): 1058–1084.（气象学报百年专刊邀稿）

[23]. 吴楚冰，肖福安*，邓玉娇，吴志峰. 2026. 2000–2022年珠三角城市群PM2.5浓度的时空变化分析. 热带气象学报. 42(1):69–82

[24]. 肖福安*，陈泓杰，林浩楷，黄晋贤，梁天豪，黄锦永，余夏瑶. 2026. 1980–2024年西北太平洋热带气旋生成源地与移动路径的长期演变规律. 广州大学学报（自然科学）（修改中）

其他论文

[25]. 肖福安. 2023. 天气气候水，代代向未来. 科学画报, 3, 8-13.(中国科技核心领军期刊-科普类)

[26]. Zhou, L., D. Wang*., X. Cheng., L. Qu., Y. Qiu., F. Xiao., et al. 2026.  Mesoscale and submesoscale variabilities in the Indian ocean. Reviews of Geophysics. e2025RG000915. . (影响因子：37.3)

[27]. Wu, R., D. Li*., P. Hollings., Z. Li., … F. Xiao., Y. Fu., L. Xu., X. Sun. 2026. Lithium enrichment in marine ferromanganese oxides: evidence from adsorption experiments of synthetic δ-MnO2. Global and Planetary Change (Under review).

[28]. He, W., Y. Liang, F. Xiao, Y. Liang, X. Luo, X. Li, H. Zheng*, J. Zhao*. 2026. Contrasting representations of marine heatwaves due to baseline selection: Implications for phytoplankton responses in the South China Sea. Journal of Oceanology and Limnology. 1-24. 10.1007/s00343-026-5298-y

[29]. Gregory, C. H*., C. Artana, …, F. Xiao, …N. J. Holbrook. 2024. Global marine heatwaves under different flavors of ENSO. Geophysical Research Letters. 51(20), e2024GL110399.

[30]. Leung, M. Y. T., Wang, D., Zhou, W*., Cheung, P. K., Jian, Y., and Xiao, F. 2022. Joint effect of West Pacific warming and the Arctic Oscillation on the bidecadal variation and trend of the East Asian trough. Journal of Climate, 35(8), 2491-2501.

[31]. 陈斌*，滕丽，肖福安，杨木壮. 2023. 地理科学专业“海洋地理学”课程思政元素构建与融入.南京师大学报（自然科学版）. 46:8-15

[32]. 陈斌*，陈小梅，肖福安，倪杰，李文翎. 2025. 气象学与气候学课程思政目标、案例与路径探索. 地理科学教育.

[33]. 姚景龙，李晗，刘钦燕，王强，肖福安，王东晓，俎婷婷*. 2017. 南海贯穿流荷载中尺度过程能量学诊断. 海洋与湖沼. 48(6):1257-1268